An electret‐based thermoacoustic‐electrostatic power generator

Summary This study reports a new concept for power generation from thermal energy, which integrates a thermoacoustic engine (TAE) with a contact‐free electret‐based electrostatic transducer. The TAE converts thermal energy into high‐intensity acoustic energy, while the electret‐based electrostatic t...

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Veröffentlicht in:International journal of energy research 2020-03, Vol.44 (3), p.2298-2305
Hauptverfasser: Chen, Geng, Tang, Lihua, Yang, Zhaoshu, Tao, Kai, Yu, Zhibin
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container_end_page 2305
container_issue 3
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container_title International journal of energy research
container_volume 44
creator Chen, Geng
Tang, Lihua
Yang, Zhaoshu
Tao, Kai
Yu, Zhibin
description Summary This study reports a new concept for power generation from thermal energy, which integrates a thermoacoustic engine (TAE) with a contact‐free electret‐based electrostatic transducer. The TAE converts thermal energy into high‐intensity acoustic energy, while the electret‐based electrostatic transducer converts the generated acoustic energy into electricity. The experiments demonstrate the feasibility and potential of the proposed electret‐based thermoacoustic‐electrostatic power generator (TAEPG). The dynamic response of the electrostatic transducer and energy conversion inside the TAE are further investigated using a lumped element model and a frequency‐domain reduced‐order network model. Good agreement is achieved between experimental measurements and theoretical predictions. Furthermore, a parametric study is performed to study the effect of key parameters including the external heating power, air gap, and resistive load on the performance of the TAEPG. Results show that an open‐circuit voltage amplitude of 4.7 V is produced at a closed‐end pressure amplitude of 480 Pa in the experiment, and it is estimated that 25.2% of the acoustic power generated by the TAE has been extracted by the electret‐based electrostatic transducer. In this case, the maximum electric power output is measured to be 2.91 μW at a resistive load of around 2.2 MΩ. By increasing the external heating power, the TAEPG can produce a maximum voltage amplitude of 8 V. This work shows that the proposed concept has great potential for developing miniature heat‐driven power generators. The novelty of the manuscript entitled “An Electret‐Based Thermoacoustic‐Electrostatic Power Generator” co‐authored by Geng Chen, Lihua Tang*, Zhaoshu Yang, Kai Tao and Zhibin Yu* is summarized as follows. A contact‐free electret‐based electrostatic transducer is integrated with a thermoacoustic engine. Experiments are conducted to demonstrate the feasibility and potential of the thermoacoustic‐electrostatic power generator. The electrostatic transducer extracts 25.2% of the acoustic power and produces a maximum voltage amplitude of 8 V.
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The TAE converts thermal energy into high‐intensity acoustic energy, while the electret‐based electrostatic transducer converts the generated acoustic energy into electricity. The experiments demonstrate the feasibility and potential of the proposed electret‐based thermoacoustic‐electrostatic power generator (TAEPG). The dynamic response of the electrostatic transducer and energy conversion inside the TAE are further investigated using a lumped element model and a frequency‐domain reduced‐order network model. Good agreement is achieved between experimental measurements and theoretical predictions. Furthermore, a parametric study is performed to study the effect of key parameters including the external heating power, air gap, and resistive load on the performance of the TAEPG. Results show that an open‐circuit voltage amplitude of 4.7 V is produced at a closed‐end pressure amplitude of 480 Pa in the experiment, and it is estimated that 25.2% of the acoustic power generated by the TAE has been extracted by the electret‐based electrostatic transducer. In this case, the maximum electric power output is measured to be 2.91 μW at a resistive load of around 2.2 MΩ. By increasing the external heating power, the TAEPG can produce a maximum voltage amplitude of 8 V. This work shows that the proposed concept has great potential for developing miniature heat‐driven power generators. The novelty of the manuscript entitled “An Electret‐Based Thermoacoustic‐Electrostatic Power Generator” co‐authored by Geng Chen, Lihua Tang*, Zhaoshu Yang, Kai Tao and Zhibin Yu* is summarized as follows. A contact‐free electret‐based electrostatic transducer is integrated with a thermoacoustic engine. Experiments are conducted to demonstrate the feasibility and potential of the thermoacoustic‐electrostatic power generator. 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Results show that an open‐circuit voltage amplitude of 4.7 V is produced at a closed‐end pressure amplitude of 480 Pa in the experiment, and it is estimated that 25.2% of the acoustic power generated by the TAE has been extracted by the electret‐based electrostatic transducer. In this case, the maximum electric power output is measured to be 2.91 μW at a resistive load of around 2.2 MΩ. By increasing the external heating power, the TAEPG can produce a maximum voltage amplitude of 8 V. This work shows that the proposed concept has great potential for developing miniature heat‐driven power generators. The novelty of the manuscript entitled “An Electret‐Based Thermoacoustic‐Electrostatic Power Generator” co‐authored by Geng Chen, Lihua Tang*, Zhaoshu Yang, Kai Tao and Zhibin Yu* is summarized as follows. A contact‐free electret‐based electrostatic transducer is integrated with a thermoacoustic engine. 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The TAE converts thermal energy into high‐intensity acoustic energy, while the electret‐based electrostatic transducer converts the generated acoustic energy into electricity. The experiments demonstrate the feasibility and potential of the proposed electret‐based thermoacoustic‐electrostatic power generator (TAEPG). The dynamic response of the electrostatic transducer and energy conversion inside the TAE are further investigated using a lumped element model and a frequency‐domain reduced‐order network model. Good agreement is achieved between experimental measurements and theoretical predictions. Furthermore, a parametric study is performed to study the effect of key parameters including the external heating power, air gap, and resistive load on the performance of the TAEPG. Results show that an open‐circuit voltage amplitude of 4.7 V is produced at a closed‐end pressure amplitude of 480 Pa in the experiment, and it is estimated that 25.2% of the acoustic power generated by the TAE has been extracted by the electret‐based electrostatic transducer. In this case, the maximum electric power output is measured to be 2.91 μW at a resistive load of around 2.2 MΩ. By increasing the external heating power, the TAEPG can produce a maximum voltage amplitude of 8 V. This work shows that the proposed concept has great potential for developing miniature heat‐driven power generators. The novelty of the manuscript entitled “An Electret‐Based Thermoacoustic‐Electrostatic Power Generator” co‐authored by Geng Chen, Lihua Tang*, Zhaoshu Yang, Kai Tao and Zhibin Yu* is summarized as follows. A contact‐free electret‐based electrostatic transducer is integrated with a thermoacoustic engine. Experiments are conducted to demonstrate the feasibility and potential of the thermoacoustic‐electrostatic power generator. The electrostatic transducer extracts 25.2% of the acoustic power and produces a maximum voltage amplitude of 8 V.</abstract><cop>Bognor Regis</cop><pub>Hindawi Limited</pub><doi>10.1002/er.5019</doi><tpages>8</tpages><orcidid>https://orcid.org/0000-0001-8184-0818</orcidid><orcidid>https://orcid.org/0000-0001-9031-4190</orcidid><oa>free_for_read</oa></addata></record>
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subjects Acoustics
Air gaps
Amplitude
Amplitudes
Circuits
Dynamic response
electret
Electric contacts
Electric potential
Electric power
Electric power generation
Electric power sources
Electricity distribution
electrostatic transducer
Energy
Energy conversion
Feasibility studies
Heating
network model
power generator
Thermal energy
thermoacoustic engine
Thermoacoustics
Transducers
Voltage
title An electret‐based thermoacoustic‐electrostatic power generator
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